|
Photon Selfproofs |
SELFPROOF 0605
- RED COLOURSHIFTING (REDSHIFT)
CURRENT PARADIGM
Redshift
happens when light seen coming from an object that is
moving away is proportionately increased in wavelength, or shifted to
the red end of the spectrum. More generally, where an observer
detects electromagnetic radiation outside the visible spectrum,
'redder' amounts to a technical shorthand for 'increase in
electromagnetic wavelength' – which also implies lower frequency
and photon energy in accord with, respectively, the wave and quantum
theories of light. (Wikipedia 02 Mar 2012)
MALTA TEMPLATE
COMMENTARY
The wavelengths of photons of extraterrestrial origin gathered here on Planet Earth are always colourshifted from the wavelength at which they first stabilised. The colourshift can be a redshift toward the red end of the spectrum or a blueshift toward the blue. The degree and the direction of the colourshift depends on these two factors:
- The
rearward gravitypull the photon has experienced during its lifetime versus
the forward gravitypull it has experienced.
- The
sum of the energy the photon has absorbed during its lifetime versus the sum
of the energy it has ejected.
Thus, interpreting the colourshift of an extraterrestrial photon requires the following to be taken into
account:
- The
mass of the emitting object (strictly, the emitting object is likely
to be an atom but to keep things simple it can be said to be the
galaxy, star, or whatever it is that contains the atom).
- The
direction of emission (photons move at lightspeed so a photon
emitted to the fore of a moving object suffers more gravitypull than does
one emitted to the rear).
- The
mass of the absorbing object (strictly, the absorbing object is our
detector here on Planet Earth but, especially if it is an
extragalactic photon, the detector's position
within the Milky Way needs to be taken into
account. Thus the mass measure needed is the mass of the Milky Way
modified by the position of the Earth in one of its spiral arms, some
distance out from the galaxy's blackhole).
- The
direction of absorption (photons move at lightspeed so a photon
absorbed at the fore of a moving object suffers less gravitypull than does
one absorbed at the rear).
- The
distance of the emitting object from the Ucentre at the time of
emission.
- The
distance of the absorbing object from the Ucentre at the time of
absorption.
- The
altering gravitypull of the Universe as a whole as it expands and
thus becomes less dense.
- The
differential colourshifting experienced by a photon during its
lifetime from “flyby's” of massive objects (since all objects
are moving, the measures of redshift and blueshift resulting from a
flyby rarely cancel each other out).
- The
effect of the teelospheres/teelstreams through which photons move
during their lifetime (gravitypull strength is an absolute and thus
easily predictable if all the factors are known whereas the speed
and direction of a teelstream can vary dramatically over a short
distance)
A
consequence of the above is that most extragalactic objects
viewed from Planet Earth are redshifted.
- The
colourshift of a photon, as detected on Planet Earth is the sum of
the redshifting and blueshifting it has suffered during its
lifetime.
- The
farther an object is from Planet Earth, the more massive it must be
for meaningful numbers of its photons to be detectable. Thus they
are more likely to be redshifted than blueshifted.
- Planet
Earth is some distance out from the teelcore of a relatively small
mass galaxy. Thus the blueshifting of a photon between crossing the
Milky Way's gravitysheath interface and reaching Planet Earth is
relatively slight and only rarely likely to cancel out the photon's
previous redshifting.
- The
Universe is expanding so the distance of most objects from the
Ucentre was once less than Planet Earth's current distance from the
Ucentre. All photons then emitted will have some degree of redshift
by the time they reach Earth. Photons emitted during the early life
of the Universe will have a marked redshift.
- In
the early life of the Universe, teelstream speeds were extremely
high resulting in the extreme redshifting of newly stabilised
photons.
|
GLOSSARY
- blueshift:
A photon's wavelength is blueshifted when the photon's
mass and energy measures increase from one specified moment to a
succeeding specified moment.
- colourshift:
The spectral change in a photon's wavelength when the
photon's mass and energy measures change from one specified moment to a
succeeding specified moment.
- gravityshift: Any change in the mass and energy measures of a blackhole due to its mutual gravitypull with another object.
- redshift: A
photon's wavelength is redshifted when the photon's mass and energy
measures decrease from one specified moment to a succeeding
specified moment.
- teelstreamshift:
Any change in the mass and energy measures of a blackhole due to
its moving from a teelstream with one mass/energy measure to one with
another mass/energy measure.
|
|
|